Multiports and other devices having optical connection ports with sliding actuators and methods of making the same

ABSTRACT

Devices such as multiports comprising connection ports with associated sliding actuators that engage securing members and methods for making the same are disclosed. In one embodiment, the device comprises a shell, at least one connection port, and at least one sliding actuator that engages with a complimentary securing member. The at least one connection port is disposed on the multiport with the at least one connection port comprising an optical connector opening extending from an outer surface of the multiport to a cavity of the multiport and defining a connection port passageway. The at least one securing member is associated with the connection port passageway and translating the sliding actuator allows the release of an optical connector disposed in the connection port.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation of International Application No.PCT/US2020/033704 filed May 20, 2020, which claims the benefit ofpriority to U.S. Provisional Application No. 62/855,295 filed on May 31,2019, both applications being incorporated herein by reference.

FIELD

The disclosure is directed to devices providing at least one opticalconnection port along with methods for making the same. Morespecifically, the disclosure is directed to devices such as terminals ormultiports comprising a connection port with a sliding actuator thatengages a securing member associated with the connection port forsecuring an optical connector along with methods of making the same.

BACKGROUND

Optical fiber is increasingly being used for a variety of applications,including but not limited to broadband voice, video, and datatransmission. As bandwidth demands increase optical fiber is migratingdeeper into communication networks such as in fiber to the premisesapplications such as FTTx, 5G and the like. As optical fiber extendeddeeper into communication networks the need for making robust opticalconnections in outdoor applications in a quick and easy manner wasapparent. To address this need for making quick, reliable, and robustoptical connections in communication networks hardened fiber opticconnectors such as the OptiTap® plug connector were developed.

Multiports were also developed for making one or more opticalconnections with hardened connectors such as the OptiTap. Prior artmultiports have a plurality of receptacles mounted through a wall of thehousing for protecting an indoor connector inside the housing that makesan optical connection to the external hardened connector of the branchor drop cable.

Illustratively, FIG. 1 shows a conventional fiber optic multiport 1having an input fiber optic cable 4 carrying one or more optical fibersto indoor-type connectors inside a housing 3. The multiport 1 receivesthe optical fibers into housing 3 and distributes the optical fibers toreceptacles 7 for connection with a hardened connector. The receptacles7 are separate assemblies attached through a wall of housing 3 of themultiport 1. The receptacles 7 allow mating with hardened connectorsattached to drop or branching cables (not shown) such as drop cables for“fiber-to-the-home” applications. During use, optical signals passthrough the branch cables, to and from the fiber optic cable 4 by way ofthe optical connections at the receptacles 7 of multiport 1. Fiber opticcable 4 may also be terminated with a fiber optic connector 5.Multiports 1 allowed quick and easy deployment for optical networks.

Although, the housing 3 of the prior art multiport 1 is rugged andweatherable for outdoor deployments, the housings 3 of multiport 1 arerelatively bulky for mounting multiple receptacles 7 for the hardenedconnector on the housing 3. Receptacles 7 allow an optical connectionbetween the hardened connector such as the OptiTap male plug connectoron the branch cable with a non-hardened connector such as the SCconnector disposed within the housing 3, which provides a suitabletransition from an outdoor space to a protected space inside the housing3.

Receptacle 7 for the OptiTap connector is described in further detail inU.S. Pat. No. 6,579,014. As depicted in U.S. Pat. No. 6,579,014, thereceptacle includes a receptacle housing and an adapter sleeve disposedtherein. Thus, the receptacles for the hardened connector are large andbulky and require a great deal of surface array when arranged in anarray on the housing 3 such as shown with multiport 1. Further,conventional hardened connectors use a separate threaded or bayonetcoupling that requires rotation about the longitudinal axis of theconnector and room for grabbing and rotating the coupling by hand whenmounted in an array on the housing 3.

Consequently, the housing 3 of the multiport 1 is excessively bulky. Forexample, the multiport 1 may be too boxy and inflexible to effectivelyoperate in smaller storage spaces, such as the underground pits orvaults that may already be crowded. Furthermore, having all of thereceptacles 7 on the housing 3, as shown in FIG. 1, requires sufficientroom for the drop or branch cables attached to the hardened connectorsattached to the multiport 1. While pits can be widened and largerstorage containers can be used, such solutions tend to be costly andtime-consuming. Network operators may desire other deploymentapplications for multiports 1 such as aerial, in a pedestal or mountedon a façade of a building that are not ideal for the prior artmultiports 1 for numerous reasons such as congested poles or spaces orfor aesthetic concerns.

Other multiports designs have been commercialized to address thedrawbacks of the prior art multiports depicted in FIG. 1. By way ofexplanation, US 2015/0268434 discloses multiports 1′ having one or moreconnection ports 9 positioned on the end of extensions 8 that projectfrom the housing of the multiport 1′ such as depicted in FIG. 2.Connection ports 9 of multiport 1′ are configured for mating directlywith a hardened connector (not shown) such as an OptiTap without theneed to protect the receptacle 7 within a housing like the prior artmultiport 1 of FIG. 1.

Although, these types of multiport designs such as shown in FIG. 2 anddisclosed in US 2015/0268434 allow the device to have smaller footprintsfor the housing 3′, these designs still have concerns such as the spaceconsumed by the relatively large ports 9 and associated spacerequirements of optical connections between the ports and hardenedconnector of the drop cables along with organizational challenges.Simply stated, the ports 9 on the extensions 8 of the multiport 1′ andthe optical connections between ports 9 and hardened connector occupysignificant space at a location a short distance away from the multiporthousing 3′ such as within a buried vault or disposed on a pole. In otherwords, a cluster of optical ports 9 of multiport 1′ are bulky or occupylimited space. The conventional hardened connectors used with multiport1′ also use a separate threaded or bayonet coupling that requiresrotation about the longitudinal axis of the connector along withsufficient space for grabbing and rotating the coupling means by hand.Further, there are aesthetic concerns with the prior art multiports 1′as well.

Consequently, there exists an unresolved need for multiports that allowflexibility for the network operators to quickly and easily make opticalconnections in their optical network while also addressing concernsrelated to limited space, organization, or aesthetics.

SUMMARY

The disclosure is directed to devices such as comprising at least oneconnection port with an associated sliding actuator that engage asecuring member associated with the connection port. As used herein, thesliding actuator is capable of moving in a longitudinal directiontransverse to the translating direction of the securing memberassociated with the connection port. Devices that may use the conceptsdisclosed herein include multiports, closures or wireless devices.Methods of making the devices are also disclosed. The devices can haveany suitable construction such as disclosed herein such a connectionport that is keyed for inhibiting a non-compliant connector from beinginserted and potentially causing damage to the device.

One aspect of the disclosure is directed to devices or multiportscomprising a shell, at least one connection port, at least one securingmember, and at least one sliding actuator. The at least one connectionport is disposed on the multiport with the at least one connection portcomprising an optical connector opening extending from an outer surfaceof the multiport to a cavity of the multiport and defining a connectionport passageway along a longitudinal axis. The at least one securingmember is associated with the connection port passageway, and at leastone sliding actuator that engages with the at least one securing member.The sliding actuator is capable of moving in a longitudinal directionthat is transverse to the translating direction of the securing member,thereby allowing the securing member to move from a retain position toan open position for the connection port.

Another aspect of the disclosure is directed to devices or multiportscomprising a shell, at least one connection port, at least one securingmember, and at least one sliding actuator that engages with the at leastone securing member. The at least one connection port comprising anoptical connector opening extending from an outer surface of themultiport to a cavity of the multiport and defining a connection portpassageway along a longitudinal axis. At least one modular adaptersub-assembly disposed within the shell. The at least one securing memberis associated with the connection port passageway where the at least onesecuring member is capable of translating in a direction that istransverse to the longitudinal axis, and where the at least one slidingactuator engages with the at least one securing member. The slidingactuator is capable of moving in a longitudinal direction that istransverse to the translating direction of the securing member

Still another aspect of the disclosure is directed to devices ormultiports comprising a shell, at least one connection port, at leastone modular adapter sub-assembly disposed within the shell, at least onesecuring member, and at least one sliding actuator. The at least oneconnection port comprising an optical connector opening extending froman outer surface of the multiport to a cavity of the multiport anddefining a connection port passageway along a longitudinal axis. Atleast one modular adapter sub-assembly disposed within the shell. The atleast one securing member capable of translating being associated withthe connection port passageway and the translating is in a directionthat is transverse to the longitudinal axis of the at least oneconnection port, where a portion of the at least one securing member ispart of the modular adapter sub-assembly. The at least one slidingactuator engages with a ramp of the at least one securing member. Thesliding actuator is capable of moving in a longitudinal direction thatis transverse to the translating direction of the securing member.

Yet another aspect of the disclosure is directed to devices ormultiports comprising a shell, at least one connection port, modularadapter sub-assembly disposed within the shell, at least one securingmember, and at least one sliding actuator. The at least one connectionport comprising an optical connector opening extending from an outersurface of the multiport to a cavity of the multiport and defining aconnection port passageway along a longitudinal axis. The at least onesecuring member capable of translating being associated with theconnection port passageway where the translating is in a direction thatis transverse to the longitudinal axis of the at least one connectionport, and a portion of the at least one securing member comprises a boreand a ramp of an engagement surface. The sliding actuator is capable ofmoving in a longitudinal direction that is transverse to the translatingdirection of the securing member

A further aspect of the disclosure is directed to devices or multiportscomprising a shell, at least one connection port, at least one modularadapter sub-assembly disposed within the shell, at least one securingmember, and at least one sliding actuator. The at least one connectionport comprising an optical connector opening extending from an outersurface of the multiport to a cavity of the multiport and defining aconnection port passageway along a longitudinal axis. The at least onesecuring member capable of translating being associated with theconnection port passageway where the translating is in a direction thatis transverse to the longitudinal axis of the at least one connectionport, and the at least one securing member comprises a bore. The atleast one sliding actuator engages with the at least one securingmember, and is capable of moving in a longitudinal direction that istransverse to the translating direction of the securing member. The atleast one securing member translates from a retain position to an openposition by moving the at least one sliding actuator in the transversedirection to the translating direction of the at least one securingmember.

Still another aspect of the disclosure is directed to devices ormultiports comprising a shell, at least one connection port, at leastone modular adapter sub-assembly disposed within the shell, at least onesecuring member, and at least one sliding actuator. The at least oneconnection port comprising an optical connector opening extending froman outer surface of the multiport to a cavity of the multiport anddefining a connection port passageway along a longitudinal axis. The atleast one securing member capable of translating being associated withthe connection port passageway, and the at least one sliding actuator iscapable of moving in a longitudinal direction that is transverse to thetranslating direction of the securing member. The securing member iscapable of translating in a direction that is transverse to thelongitudinal axis of the at least one connection port, and the at leastone securing member comprises a bore and a locking feature, and whereinthe at least one securing member translates from a retain position to anopen position by moving the at least one sliding actuator in thetransverse direction to the translating direction of the at least onesecuring member.

Other aspects of the disclosure are directed to devices or multiportscomprising a shell, at least one connection port, a securing featurepassageway, at least one securing feature associated with the at leastone connection port passageway, and at least one modular adaptersub-assembly disposed within the shell. The at least one connection portcomprising an optical connector opening extending from an outer surfaceof the multiport to a cavity of the multiport and defining a connectionport passageway along a longitudinal axis. The at least one securingfeature comprises a securing member and sliding actuator. The slidingactuator is capable of moving in a longitudinal direction that istransverse to the translating direction of the securing member. Thesliding actuator is capable of sliding within a portion of the at leastone securing feature passageway, and the securing member is capable oftranslating in a direction transverse to the longitudinal axis of the atleast one connection port. The securing member translates from a retainposition to an open position by moving the at least one slidingactuator. The securing member being a part of the modular adaptersub-assembly.

A still further aspect of the disclosure is directed to a wirelessdevice comprising a shell, at least one connection port, at least onesecuring feature. The at least one connection port is disposed on thewireless device, the at least one connection port comprising an opticalconnector opening extending from an outer surface of the wireless deviceinto a cavity of the wireless device and defining a connection portpassageway along a longitudinal axis. The at least one securing featurebeing associated with the connection port passageway, wherein the atleast one securing feature comprises a securing member and a slidingactuator, and at least one securing feature resilient member for biasinga portion of the at least one securing feature. The at least onesecuring member is capable of translating in a direction that istransverse to the longitudinal axis of the connection port passagewayand the sliding actuator is capable of moving in a longitudinaldirection transverse to the translating direction of the at least onesecuring member. The securing member may comprise a locking feature asdesired. For instance, the locking feature may be a ramp with a ledgedisposed on the bore of the securing member. The connection port of thewireless device may also comprise other features, structures orcomponents as disclosed herein.

Other aspects of the disclosure are directed to methods of making thedevices described herein. One method of making devices comprising anoptical connection port comprises the steps of installing at least onesecuring member into the device so that the at least one securing memberis associated with a respective connection port. The securing member maytranslate between an open position and a retain position by moving anassociated sliding actuator that engages the securing member asdiscussed herein. A portion of the securing member may translate betweenan open position and a retain position in a direction that is transverseto a longitudinal axis of the connection port, and the sliding actuatoris capable of moving in a longitudinal direction that is transverse tothe translating direction of the at least one securing member. Devicesor methods disclosed herein may also comprise an optional securingmember resilient member that is positioned for biasing a portion of theat least one securing member to a retain position. Likewise, the devicesor methods disclosed herein may further optionally comprise a torsionalresilient member for biasing the sliding actuator. The devices ormethods may further comprise a locking feature on the securing memberfor engaging a fiber optic connector inserted into the connection port.Any suitable locking feature may be used, and in one embodiment thelocking feature comprises a ramp with a ledge.

Devices or methods of making may further comprise the securing membertranslating from a retain position to an open position as a suitablefiber optic connector is inserted into the at least one connection port.Still other devices or methods may further comprise the securing feature310 being capable of moving to a retain position RP automatically when asuitable fiber optic connector is fully-inserted into a connector portpassageway. Yet further methods may comprise translating the at leastone securing feature 310 the open position OP from a normally-biasedretain position RP.

Additional features and advantages will be set forth in the detaileddescription which follows, and in part will be readily apparent to thoseskilled in the art from that description or recognized by practicing thesame as described herein, including the detailed description thatfollows, the claims, as well as the appended drawings.

It is to be understood that both the foregoing general description andthe following detailed description present embodiments that are intendedto provide an overview or framework for understanding the nature andcharacter of the claims. The accompanying drawings are included toprovide a further understanding of the disclosure, and are incorporatedinto and constitute a part of this specification. The drawingsillustrate various embodiments and together with the description serveto explain the principles and operation.

BRIEF DESCRIPTION OF THE FIGURES

FIGS. 1 and 2 are prior art multiports;

FIGS. 3 and 4 respectively are top and bottom perspectives view of anassembled device such as an explanatory device or multiport comprisingat least one connection port defined by a respective optical connectoropening disposed in the shell of the multiport along with a securingfeature having a sliding actuator associated with the connection portpassageway;

FIG. 5 depicts a longitudinal sectional view of the multiport of FIGS. 3and 4 through the connection port for showing the internal constructionof the multiport with the rear (internal) connector shown and theoptical fibers removed for clarity;

FIGS. 6 and 7 are detailed sectional views of the multiport of FIGS. 3and 4 depicting the movement for the sliding actuator and translation ofthe securing member with the section taken through the connection portfor showing the internal construction of the multiport with the rear(internal) connectors shown and the optical fibers removed for clarity;

FIG. 8 is a partially exploded view of the multiport of FIGS. 3 and 4with the optical fiber assembly comprising an optical splitter;

FIGS. 9 and 10 respectively are assembled front and rear perspectiveviews of the modular adapter sub-assembly comprising an adapter and aportion of the securing feature for cooperation with one connection portof the device of FIGS. 3 and 4 with the rear connector attached;

FIG. 11 is an exploded view of the modular adapter sub-assembly of FIGS.9 and 10 along with the rear connector;

FIG. 12 is a longitudinal sectional view of the modular adaptersub-assembly of FIGS. 9 and 10 with the rear connector attached;

FIGS. 13 and 14 are top perspective views from different directions of asecond portion of the shell of the multiport of FIGS. 3 and 4;

FIG. 15 is a front perspective view of the second portion of the shelldepicted in FIGS. 13 and 14;

FIG. 16 is a detailed perspective view of the second portion of shellshowing the mounting features for modular adapter sub-assembly of FIGS.9 and 10;

FIG. 17 is a top perspective view of the modular adapter sub-assembliesloaded into the second portion of the shell with the optical fibersremoved for clarity;

FIG. 18 is an inside perspective view of the first portion of the shell;

FIGS. 19A and 19B depict a top perspective view and a front view showingdetails of the sliding actuator of the securing feature of the multiportof FIGS. 3 and 4 that cooperates with the securing member of FIGS.21-23;

FIGS. 20A and 20B depict a bottom perspective view and bottom viewshowing details of an alternative sliding actuator for use with asecuring feature of the multiport of FIGS. 3 and 4;

FIG. 20C depicts a resilient member that may be used with the slidingactuators disclosed herein for biasing the sliding actuators to anormally-retain position;

FIGS. 21-23 are various perspective views showing the details of thesecuring member of the securing feature of the multiport of FIGS. 3 and4 that cooperates with the sliding actuator of FIGS. 19 and 20;

FIG. 24-27 are various perspective views showing the details of theadapter body of the modular adapter sub-assembly of FIGS. 9-12;

FIGS. 28 and 29 are perspective views of the adapter of the modularadapter sub-assembly of FIGS. 9-12.

FIG. 30 is perspective view of the retainer of the modular adaptersub-assembly of FIGS. 9-12;

FIGS. 31 and 32 are perspective views of a keeper of the modular adaptersub-assembly of FIGS. 9-12;

FIG. 33 is a partially exploded view of another explanatory multiportwith the optical fibers removed for clarity that is similar to themultiport of FIGS. 3 and 4;

FIG. 34 is an exploded view of the modular adapter sub-assembly of themultiport of FIG. 33;

FIG. 35 is a perspective view of the modular adapter sub-assembly ofFIG. 34;

FIG. 36 is a longitudinal sectional view of the modular adaptersub-assembly of FIG. 35;

FIG. 37 is a detailed top perspective view of the modular adaptersub-assemblies of FIG. 35 being loaded into the second portion of theshell with the optical fibers removed for clarity;

FIG. 38 is a detailed perspective view showing how the features of themodular sub-assemblies of FIG. 35 engage the first portion of the shellwhen assembled;

FIG. 39 is a detailed sectional view of the multiport of FIGS. 33through the connection port for showing the internal construction of themultiport with a fiber optic connector retained using the securingfeature;

FIGS. 40A and 40B depict perspective views of an input tether and theinput tether as part of the multiports disclosed;

FIGS. 41-43 depict various views of a mounting feature insert that maybe attached to the bottom of the second portion of the shell for usewith the devices disclosed;

FIGS. 44-46 depict various views of a mounting tab that may be attachedto the front end of the second portion of the shell for use with thedevices disclosed;

FIGS. 47 and 48 depict views of a dust cap for the connection ports ofthe devices disclosed;

FIG. 49 is a perspective view of a wireless device comprising at leastone connector port and a securing member according to the conceptsdisclosed herein;

FIG. 50 is a perspective view of a closure comprising at least oneconnector port and a securing member according to the concepts disclosedherein; and

FIGS. 51 and 52 respectively depict perspective and detailed top viewsof another device or multiport comprising a cover portion for protectingthe sliding actuators according to the concepts disclosed herein;

FIGS. 53-56 are various views of securing another securing featureassembly having a sliding actuator associated with the connection portpassageway with a common resilient member for the securing membersaccording to the concepts disclosed herein; and

FIG. 57 is a perspective view of the common resilient member depicted inFIGS. 53-56.

DETAILED DESCRIPTION

Reference will now be made in detail to the embodiments of thedisclosure, examples of which are illustrated in the accompanyingdrawings. Whenever possible, like reference numbers will be used torefer to like components or parts.

The concepts for the devices disclosed herein are suitable for providingat least one optical connection to the device for indoor, outdoor orother environments as desired. Generally speaking, the devices disclosedand explained in the exemplary embodiments are multiports, but theconcepts disclosed may be used with any suitable device as appropriatesuch as wireless radios or the like. As used herein, the terms “device”or “multiport” mean any device comprising at least one connection portfor making an optical connection and a securing feature associated withthe at least one connection port. By way of example, the multiport maybe any suitable device having at least one optical connection such as apassive device like an optical closure (hereinafter “closure”) or anactive device such as a wireless device having electronics fortransmitting or receiving a signal.

The concepts disclosed advantageously allow compact form-factors fordevices such as multiports comprising at least one connection port and asecuring feature associated with the connection port. The concepts arescalable to any suitable count of connection ports on a device in avariety of arrangements or constructions. The securing featuresdisclosed herein for devices engage directly with a portion of connectorwithout conventional structures like prior art devices that require theturning of a coupling nut, bayonet or the like. As used herein,“securing feature” excludes threads and features that cooperate withbayonets on a connector. Thus, the devices disclosed may allowconnection ports to be closely spaced together and may result in smalldevices since the room needed for turning a threaded coupling nut orbayonet is not necessary. The compact form-factors may allow theplacement of the devices in tight spaces in indoor, outdoor, buried,aerial, industrial or other applications while providing at least oneconnection port that is advantageous for a robust and reliable opticalconnection in a removable and replaceable manner. The disclosed devicesmay also be aesthetically pleasing and provide organization for theoptical connections in manner that the prior art multiports cannotprovide.

The devices disclosed are simple and elegant in their designs. Thedevices disclosed comprise at least one connection port and a securingfeature associated with the connection port that is suitable forretaining an external fiber optic connector received by the connectionport. The connection port may include a keying portion that cooperateswith a key on a complimentary external fiber optic connector to inhibitdamage to the connection port by inhibiting the insertion of anon-compliant connector. The keying portion may also aid the user duringblind insertion of the connector into the connection port of the deviceto determine the correct rotational orientation with respect to theconnection port when a line of sight is not possible or practical foralignment.

Unlike prior art multiports, the concepts disclosed advantageously allowthe quick and easy connection and retention by inserting the fiber opticconnectors directly into the connection port of the device without theneed or space considerations for turning a threaded coupling nut orbayonet for retaining the external fiber optic connector. Generallyspeaking, the securing features disclosed for use with devices hereinmay comprise two or more components with the first component translatingfor releasing or securing the external fiber optic connector to thedevice, and second component engaging the first component and sliding inorder to translate the first component. In the embodiments disclosedherein, the securing features include a securing member that moves ortranslates in a direction that is transverse to the longitudinal axis ofthe connection port that receives the connector, and the slidingactuator is capable of moving in a longitudinal direction that istransverse to the translating direction of the securing member (e.g.,the securing member and sliding actuators move or translate in differentlongitudinal directions). As used herein, the term “securing feature”excludes threaded portions or features for securing a bayonet disposedon an external connector, but cooperate in other manners for securingthe external connector to the device.

Since the connector footprint used with the devices disclosed does notrequire the bulkiness of a coupling nut or bayonet for securing theexternal connector, the fiber optic connectors that cooperate with thedevices disclosed herein may be significantly smaller than conventionalconnectors used with prior art multiports. Moreover, the presentconcepts for connection ports on devices allows an increased density ofconnection ports per volume of the shell or increased port width densitysince there is no need for accessing and turning the coupling nut orbayonets by hand for securing a fiber optic connector like the prior artmultiports.

The devices disclosed comprise a securing member for directly engagingwith a suitable portion of a connector housing of the external fiberoptic connector or the like for securing an optical connection with thedevice. Different variations of the concepts are discussed in furtherdetail below. The structure for securing the fiber optic connectors inthe devices disclosed allows much smaller footprints for both thedevices and the fiber optic connectors along with a quick-connectfeature. Devices may also have a dense spacing of connection ports ifdesired. The devices disclosed advantageously allow a relatively denseand organized array of connection ports in a relatively smallform-factor while still being rugged for demanding environments. Asoptical networks increase densifications and space is at a premium, therobust and small-form factors for devices such as multiports, closuresand wireless devices disclosed herein becomes increasingly desirable fornetwork operators.

The concepts disclosed herein are suitable for optical distributionnetworks such as for Fiber-to-the-Home and 5G applications and areequally applicable to other optical applications as well includingindoor, automotive, industrial, wireless, or other suitableapplications. Additionally, the concepts disclosed may be used with anysuitable fiber optic connector footprint that cooperates with thesecuring member of the device. Various designs, constructions, orfeatures for devices are disclosed in more detail as discussed hereinand may be modified or varied as desired.

The devices disclosed may locate the at least one connection port 236 indifferent portions or components of the device as desired using thedisclosed concepts. The concepts are shown and described with a device200 having 4-connection ports that are optically connected to an inputport arranged in an array on one end of the device, but otherconfigurations are possible such as connection ports or input ports onboth ends, an express port, a pass-through port or the like. FIGS. 3-32show the construction and features for a first explanatory multiport,and FIGS. 33-47 show the construction of a second explanatory multiport200 similar to the first multiport 200. Although, these concepts aredescribed with respect to multiports the concepts may be used with anyother suitable devices such as wireless devices (FIG. 49), closures(FIG. 50) or other suitable devices.

FIGS. 3 and 4 respectively depict top and bottom perspective views ofthe first explanatory multiport 200 comprising at least one connectionport 236. Generally speaking, devices such as multiport 200 comprise ashell 210 comprising a body 232 and one or more connection ports 236disposed on a first end or portion 212 of multiport 200. The connectionports 236 or input port 260 are configured for receiving and retainingsuitable external fiber optic connectors 10 (FIG. 39) for making opticalconnections with the multiport 200.

Connection ports 236 each comprises a respective optical connectoropening 238 extending from an outer surface 234 of the multiport 200into a cavity 216 of the multiport 200 and defining a portion of aconnection port passageway 233. By way of explanation, at least oneconnection port 236 is molded as a portion of shell 210, but otherconstructions are possible such as sleeving the ports. At least onesecuring feature 310 is associated with the connection port passageway233 for cooperating with the external fiber optic connector 10. As shownin FIG. 11, securing feature 310 comprises a securing member 310M and asliding actuator 310A. The securing member 310M that is capable oftranslating in a direction that is transverse to the longitudinal axisof the associated connection port 236 for releasing or securing theexternal fiber optic connector 10 (i.e., the insertion direction of theconnector), and sliding actuator 310A engages with the securing member310M for moving the same. Specifically, the sliding actuator 310A iscapable of moving the at least one securing feature 310M in thetransverse direction when rotated as discussed herein. Sliding actuator310A translates the securing member 310M when moving in a longitudinaldirection that is transverse to the translating direction of thesecuring member 310M as represented by the arrows in FIGS. 6 and 7.

Multiport 200 of FIGS. 3 and 4 also comprises an input port 260 that issimilar to the connection ports 236, but other constructions such as aninput stub cable are possible. As shown, the connection ports 236 (FIG.6) or input port 260 may comprise a marking indicia such as an embossednumber or text, but other marking indicia are also possible. Forinstance, the marking indicia may be on the securing feature 310 such astext on the sliding actuator or the sliding actuator(s) may becolor-coded to indicate fiber count, input or output for the associatedconnection port or input port.

The concepts disclosed may use a securing feature resilient member 310RMfor biasing a portion of the securing feature 310 as discussed herein ifdesired, but embodiments do not require a securing feature resilientmember depending on the construction. Multiports 200 disclosed may useone or more modular adapter sub-assemblies 310SA (FIGS. 9-12) disposedwithin a shell for a scalable form-factor for manufacturing similardevices with different port counts. However, the concepts may beemployed without the use of the modular adapter sub-assemblies by havingthe adapters mounted on a common part, but then the adapters for theindividual connection ports would not “float” independently. The shellcomprises one or more connection ports and device comprises one or morerespective securing features 310 cooperating with the connection portsfor providing quick and easy optical connectivity with a robust andreliable design that is intuitive to use.

Optical connections to the devices are made by inserting one or moresuitable external fiber optic connectors into respective connection portpassageways 233 as desired. Specifically, the connection port passageway233 is configured for receiving a suitable external fiber opticconnector (hereinafter connector) of a fiber optic cable assembly(hereinafter cable assembly). Connection port passageway 233 isassociated with a securing feature 310 for retaining (e.g., securing)the connector in the multiport 200 for making an optical connection. Thesecuring feature 310 advantageously allows the user to make a quick andeasy optical connection at the connection port 236 of multiport 200. Thesecuring feature 310 may also operate for providing a connector releasefeature by moving the sliding actuator 310A to translate the securingmember 310M to an open position (e.g., downward) for releasing theexternal fiber optic connector.

The connector may be retained within the respective connection port 236of the device by pushing and fully-seating the connector within theconnection port 236 if the securing member 310M is allowed to translateto an open position when inserting the external connector.Alternatively, the sliding actuator 310A may be required to betranslated to an open position for inserting an external connectordepending on the design of the securing feature 310. To release theconnector from the respective connection port 236, the sliding actuator310A is actuated by moving the sliding actuator 310A and translating thesecuring member 310M so that the locking feature 20L disengages from theexternal connector housing 20 (FIG. 39) and allowing the connector to beremoved from the connection port 236. Stated another way, the at leastone securing feature 310 is capable of releasing the connector when aportion of the securing feature 310 (i.e,. the securing member 310M)translates within a portion of a securing feature passageway 245. Thefull insertion and automatic retention of the connector mayadvantageously allow one-handed installation of the connector by merelypushing the connector into the connection port 236. The devicesdisclosed may accomplish this connector retention feature uponfull-insertion by biasing the securing feature to a retain position.However, other modes of operation for retaining and releasing theconnector are possible according to the concepts disclosed. Asdiscussed, the securing feature 310 may be designed to require actuationby translating the sliding actuator 310A for inserting the connector;however, this may require a two-handed operation.

Securing feature 310 may be designed for holding a minimum pull-outforce for the connector. The pullout feature is possible if the securingmember 310M is allowed to move to the open position independently ofturning the sliding actuator 310A. This pullout feature requires thatthe sliding actuator 310A does not constrain the securing member 310Mfrom moving to the open position when excessive forces are applied andsecuring features 310 may be designed with either configuration. By wayof example, the securing member 310M may use a resilient member 310RMfor biasing the securing member to the retain position and whenexcessive pull-out force is applied to overcome the biasing force, thensecuring member 310M is allowed to translate to an open position forreleasing the connector. In other embodiments, the sliding actuator 310Amay be designed so that it must be translated before the securing member310M is allowed to move to an open position.

In some embodiments, the pull-out force may be selected to release theconnector before damage is done to the device or the connector. By wayof example, the securing feature 310 associated with the connection port236 may require a pull-out force of about 50 pounds (about 220N) beforethe connector would release. Likewise, the securing feature 310 mayprovide a side pull-out force for connector for inhibiting damage aswell. By way of example, the securing feature 310 associated with theconnection port 236 may provide a side pull-out force of about 25 pounds(about 110N) before the connector would release. Of course, otherpull-out forces such as 75 pounds (about 330N) or 100 (about 440N)pounds are possible along with other side pull-out forces.

FIGS. 3 and 4 depict that shell 210 is formed by a first portion 210Aand a second portion 210B, but other constructions are possible forshell 210 using the concept disclosed. Multiport 200 or devices maycomprise mounting features that are integrally formed in the shell 210or that are separate components attached to shell 210 for mounting thedevice as depicted in FIGS. 3 and 4. By way of example, shell 210depicts mounting features 210MF disposed near first and second ends 212,214 of shell 210. Mounting feature 210MF adjacent the first end 212 ofmultiport 200 is a mounting tab 298 attached to shell 210, and themounting feature 210MF adjacent the second end 214 is a through holewith a support 210S. Details of mounting tab will be discussed infurther detail with respect to FIGS. 15 and, and details of support 210Swill be discussed in further detail with respect to FIG. 8. However,mounting features 210MF may be disposed at any suitable location on theshell 210 or connection port insert 230. For instance, multiport 200also depicts a plurality of mounting features 210MF integrally-formed onshell 210 and configured as passageways disposed on the lateral sides.Thus, the user may simply use a fastener such as a zip-tie threaded thruthese lateral passageways for mounting the multiport 200 to a wall orpole as desired. Shell 210 may also include one or more notches 210N onthe bottom side for aiding in securing the device to a round pole or thelike as shown in FIG. 4 if desired.

FIGS. 5-7 depict various cross-sections through a connection portpassageway 233 showing the internal construction of multiport 200, andFIG. 8 is a partially exploded view of multiport 200 showing the opticalfibers 250 that optically connect the connection ports 236 with theinput port 260 inside the device. As depicted in FIG. 8, multiport 200comprises a shell 210 comprising at least one connection port 236, and amodular adapter sub-assembly 310SA as discussed in further detail herein

FIGS. 5-7 depicts the multiport 200 comprising at least one connectionport 236 extending from an outer surface 234 of the multiport 200 into acavity 216 of the multiport 200 and defining a connection portpassageway 233 along a longitudinal axis LA. Multiport 200 alsocomprises at least one securing feature 310 associated with theconnection port passageway 233. Securing features 310 compriserespective sliding actuators 310 and securing members 310M for therespective connection ports 236. Multiport 200 also comprises at leastone securing feature passageway 245 for receiving a portion of thesecuring feature 310. As depicted, the securing feature passageways 245extend from the outer surface 234 of multiport 200 to cooperate with therespective connection port passageways 233 of the multiport 200.Multiport 200 also comprises a plurality of adapters 230A for receivingrespective rear connectors 252 in alignment with the respectiveconnection port 236 for making the optical connection with the externalfiber optic connector.

The securing features 310 disclosed herein may take many differentconstructions or configurations as desired. The sliding actuator 310A iscapable of moving the respective securing feature 310M in a directiontransverse to the longitudinal axis of the connection port passageway233 as represented by the vertical arrows in FIGS. 6 and 7. Slidingactuator 310A moves in a longitudinal direction that is transverse tothe translating direction of the securing member 310M as represented bythe horizontal arrows in FIGS. 6 and 7. Securing member 310M may bebiased by a resilient member 230RM to the retain position RP (e.g.,upward). Furthermore, the securing features 310 or portions of securingfeatures 310 may be constructed as a portion of a modular adaptersub-assemblies 310SA such as shown in FIGS. 9-12 for easy assembly ofthe multiport 200. Moreover, the modular sub-assemblies 230SAadvantageously allow the mating components for each connection port 236to move or “float” independently of other mating components relative tothe shell 210 for the other connection ports for preserving opticalperformance. “Float” means that the adapter 230A can have slightmovement in the X-Y plane for alignment, and may be inhibited fromover-traveling in the Z-direction along the axis of connector insertionso that suitable alignment may be made between mating connectors, whichmay include a biasing spring for allowing some displacement of theadapter 230A with a suitable restoring force provided by the spring.

Generally speaking, the devices disclosed comprise at least oneconnection port 236 defined by an optical connector opening 238extending into a cavity 216 of the device 200, 500, 700 along with asecuring feature 310 associated with the connection port 236.

As best shown in FIGS. 6 and 7, securing feature 310 is biased to aretain position. Specifically, the securing member 310M is biased in anupward direction using a securing feature resilient member 310RM. Morespecifically, securing feature resilient member 310RM is disposedbeneath securing member 310M for biasing to a normally retain positionfor the securing feature 310 where the locking feature 310L is disposedin the connection port passageway 233.

As best depicted in FIGS. 6 and 7, a portion of sliding actuator 310A isdisposed within a portion of the securing feature passageway 245 andcooperates or engages with an engagement surface 310ES of the securingmember 310M to provide linear downward translation of the respectivesecuring member 310M. When assembled, the translating of the slidingactuator 310A causes the engagement surface 310ES such as a ramp (e.g.,a cam surface or the like) of the securing member 310M to ride or followon an engagement surface 310AES (FIG. 19) of the sliding actuator 310Asuch as a ramp (e.g., a cam surface, or the like), thereby translatingthe securing member 310M from a retain position RP to an open positionOP and vice versa. The engagement surface 310ES may be disposed on abottom portion of the sliding actuator 310A and may be curved orstraight for translating the securing member 310M downward when thesliding actuator moves forward. Consequently, a portion of securingfeature 310 (i.e., the securing member 310M) is capable of translatingwithin a portion of the securing feature passageway 245 transverse tothe longitudinal axis of the connection port passageway 233 whentranslating the sliding actuator 310A relative to the securing featurepassageway 245 or shell. Any suitable structure may be used for theengagement surface 310ES of the securing member 310M and thecomplimentary engagement surface 310AES on the sliding actuator 310A. Byway of explanation, the engagement surface 310ES may be a protrusion orrecess on the securing member 310M such as a ramp, slot or the like thatengages with a complimentary engagement surface 310AES on the slidingactuator 310A. For instance, an engagement surface 310ES such as a rampof the securing member 310M may ride on complimentary engagement surfaceof the sliding actuator 310A such as a protrusion for translating thesecuring member 310M, but other structures may be used with the conceptsdisclosed. The complimentary engagement surfaces may influence theposition of the securing member 310M in one or both directions (e.g.,down and/or up) depending on the functionality desired. By way ofexplanation, if it is desired that the sliding actuator 310A to betranslated to the open position for receiving or releasing an externalconnector in the connection port 236, then the sliding actuator 310Awould influence the position of the securing member 310M in bothdirections. On the other hand, if a push and click connection port 236was desired when the securing feature 310 is in the retain position,then the sliding actuator 310A would only influence the position of thesecuring member 310M in one direction (and a securing feature resilientmember 310RM would be used) so that the external connector may be stillbe inserted when the sliding actuator 310A is placed in the retainposition by allowing the translation of the securing member 310Mdownward upon insertion, and normal external connector release wouldrequire translating the sliding actuator 310A to the open position.Additionally, other embodiments may use an optional resilient member forbiasing the sliding actuator 310A to a normally retain position ifdesired.

FIGS. 19A-20B show various views of the sliding actuator 310A. As bestshown in FIG. 19A, sliding actuator 310A also comprises a stop surface310SS that seats and retains the sliding actuator 310A within shell 210when assembled, and below the stop surface is seat for a seal. Asdepicted, a sealing feature 310S is disposed on the sliding actuator310A. Sealing feature 310S provides a seal between a portion of thesecuring feature 310 and the securing feature passageway 245 to inhibitdirt, dust and debris from entering the device. As shown, the sealingfeature 310S is disposed on an outer portion of the sliding actuator310A.

In this embodiment, the securing member 310M comprises a bore 310B thatis aligned with the least one connection port passageway 233 whenassembled as best shown in FIG. 7. Bore 310B is sized for receiving asuitable connector therethrough for securing the same for opticalconnectivity. Bores or openings through the securing member 310M mayhave any suitable shape or geometry for cooperating with its respectiveexternal connector. As used herein, the bore may have any suitable shapedesired including features on the surface of the bore for engaging withthe desired connector. Bore 310B is disposed on the securing member 310Mmay also comprise any suitable locking feature disposed within the bore310B as desired. For instance, the locking feature 310L disposed withinthe bore 310B may be a pin, pin with a ramp, or other suitable structurefor engaging with the external connector.

In some embodiments, a portion of the securing member 310M is capable ofmoving to an open position when inserting a suitable external connector10 into the connection port passageway 233. When the connector 10 isfully-inserted into the connector port passageway 233, the securingmember 310M is capable of moving to the retain position automatically.Consequently, the connector 10 is secured within the connection port 236by the securing feature 310 without turning a coupling nut or a bayoneton the external connector like the prior art multiports. Stated anotherway, the securing member 310M translates from the retain position to anopen position as a suitable connector 10 is inserted into the connectionport 236. The securing feature passageway 245 is arranged transverselyto a longitudinal axis LA of the multiport 200, but other arrangementsare possible. Other securing features may operate in a similar manner,and use an opening instead of a bore that receives the connectortherethrough.

FIGS. 6 and 7 depict securing member 310M comprising a locking feature310L. Locking feature 310L cooperates with a portion of the connector 10when it is fully-inserted into the connection port 236 for securing thesame. As best shown in FIG. 39, the connector housing 20 of connector 10may have a cooperating geometry that engages the locking feature 310L ofsecuring member 310M. In this embodiment, locking feature 310L comprisesa ramp 310RP. The ramp is integrally formed at a portion of the bore310B with the ramp angling up when looking into the connection port 236.The ramp allows the connector to push and translate the securing member310M downward against the securing feature resilient member 310RM as theconnector is inserted in the connection port 236 as shown. Ramp may haveany suitable geometry. Once the locking feature 310L of the securingmember 310M is aligned with the cooperating geometry of the lockingfeature 20L of connector, then the securing member 310M translatesupward so that the locking feature 310L engages the locking feature ofconnector.

Locking feature 310L comprises a retention surface 310RS. In thisembodiment, the back-side of the ramp of locking feature 310L forms aledge that cooperates with complimentary geometry on the connectorhousing of connector. However, retention surface 310RS may havedifferent surfaces or edges that cooperate for securing connector forcreating the desired mechanical retention. For instance, the retentionsurface 310RS may be canted or have a vertical wall for tailoring thepull-out force for the connection port 236. However, other geometriesare possible for the retention surface 310RS. Additionally, theconnection port 236 has a sealing location at a connection portpassageway sealing surface with the connector that is located closer tothe optical connector opening 238 at the outer surface 234 than thesecuring feature 310 or locking feature 310L. In other words, connectionport 236 has connection port passageway sealing surface for theconnector disposed at a distance from the optical connector opening 238and the locking feature 310L and securing feature 310 are disposed at adistance further into the connection port passageway 233 than distancewhere the connector sealing occurs.

Generally speaking, the connection port passageways 233 may beconfigured for the specific connector intended to be received in theconnection port 236. Likewise, the connection port passageways 233should be configured for receiving the specific rear connector 252 formating and making an optical connection with the connector 10.

The device 200 may also comprise at least one adapter 230A aligned withthe respective connection port 236 or connection port passageway 233.Adapter 230A and other components are a portion of the modularsub-assembly 310SA as depicted in FIGS. 9-12. Adapter 230A is suitablefor securing a rear connector 252 thereto for aligning the rearconnector 252 with the connection port 236. One or more optical fibers250 (FIG. 8) may be routed from the connection port 236 toward an inputconnection port 260 of the multiport 200. For instance, the rearconnector 252 may terminate the optical fiber 250 for optical connectionat connection port 236 and route the optical fiber 250 for opticalcommunication with the input connection port 260.

A plurality of rear connectors 252 are aligned with the respectiveconnector port passageways 233 within the cavity 216 of the multiport200. The rear connectors 252 are associated with one or more of theplurality of optical fibers 250. Each of the respective rear connectors252 aligns and attaches to a structure such as the adapter 230A or otherstructure related to the connection port passageway 233 in a suitablematter. The plurality of rear connectors 252 may comprise a suitablerear connector ferrule 252F as desired and rear connectors 252 may takeany suitable form from a simple ferrule that attaches to a standardconnector type inserted into an adapter. By way of example, rearconnectors 252 may comprise a resilient member for biasing the rearconnector ferrule 252F or not. Additionally, rear connectors 252 mayfurther comprise a keying feature.

The rear connectors 252 shown in FIGS. 5-7 have a SC footprint, butother connectors are possible with or without the use of an adapter. Asknown, the SC footprint may be defined according to IEC 61754:2013. IfSC connectors are used as the rear connector 252 they have a keyingfeature 252K that cooperates with the keying feature of adapter 230A.Additionally, adapters 230A comprise a retention feature (not numbered)for seating the adapters 230A in the device adjacent to the connectionport passageway 233.

As best shown in FIGS. 7 and 15, the connection port passageway 233 maycomprise a keying portion 233KP disposed forward of the securing feature310 in connection port passageway. As shown, the keying portion 233KP isan additive keying portion to the primitive geometric round shape of theconnection port passageway 233 such as a male key that is disposedforward of the securing feature in the connection port passageway 233.However, the concepts for the connection ports 236 of devices may bemodified for different connector designs or not use a keying portion.

Adapters 230A are secured to an adapter body 255 using retainer 240.Adapters 230A may be biased using a resilient member 230RM as shown.Rear connectors 252 may take any suitable form and be aligned for matingwith the connector secured with the connection ports 236 in any suitablemanner. Adapters 230A may comprise latch arms for securing respectiverear connectors therein.

Multiport 200 may have the input connection port 260 disposed in anysuitable location. As used herein, “input connection port” is thelocation where external optical fibers are received or enter the device,and the input connection port does not require the ability to make anoptical connection as discussed below. By way of explanation, multiport200 may have the input connection port 260 disposed in an outboardposition of the array of connection ports 236, on another side of themultiport, or disposed in a medial portion of array of connection ports236 as desired.

FIG. 8 shows a partially exploded view of multiport 200 of FIGS. 3 and4. Multiport 200 comprises a shell 200, at least one connection port236, and a plurality of modular adapter sub-assemblies 310SA. Multiport200 has one or more optical fibers 250 routed from the one or moreconnection ports 236 toward an input connection port 260 in a suitablefashion inside cavity 216 as depicted. In this embodiment, the rearconnectors 252 are attached to optical fibers 250 that are routingthrough an optical splitter 275 (hereinafter “splitter(s)”) for opticalcommunication with the optical fiber 250 in optical communication withthe input port 260. Other embodiments may forgo the splitter or in otherembodiments the multiport may use multiple splitters. As shown, themodular adapter sub-assembly 310SA for the input connection port 260 isdisposed in second portion 210B of shell 210.

Optical fibers 250 are routed from one or more of the plurality ofconnection ports 236 toward an input connection port 260 for opticalcommunication within the multiport 200. Consequently, the inputconnection port 260 receives one or more optical fibers and then routesthe optical signals as desired such as passing the signal through 1:1distribution, routing through an optical splitter or passing opticalfibers through the multiport. Splitters 275 such as shown in FIG. 8allow a single optical signal to be split into multiple signals such as1×N split, but other splitter arrangements are possible such as a 2×Nsplit. For instance, a single optical fiber may feed input connectionport 260 and use a 1×8 splitter within the multiport 200 to allow eightconnector ports 236 for outputs on the multiport 200. The inputconnection port 260 may be configured in a suitable manner with any ofthe multiports 200 disclosed herein as appropriate such as asingle-fiber or multi-fiber port. Likewise, the connection ports 236 maybe configured as a single-fiber port or multi-fiber port. For the sakeof simplicity and clarity in the drawings, all of the optical fiberpathways may not be illustrated or portions of the optical fiberpathways may be removed in places so that other details of the designare visible.

Additionally, the multiports or shells 210 may comprise at least onesupport 210S or fiber guide for providing crush support for themultiport and resulting in a robust structure. As depicted in FIG. 8,multiport 200 may comprise a support 210S configured as a support insertthat fits into shell 210. Support 210S has a bore therethrough and mayact as a mounting feature for the use to a fastener to mount themultiport 200. Consequently, the support 210S carries the majority ofany crushing forces that may be applied by the fastener and inhibitsdamage to the shell 210. Support 210S may also be located and attachedto the shell at a location outside of the sealing interface between thefirst portion 210A and the second portion 210B of shell 210.

FIG. 7 also depicts a detailed sectional view of the interlockingfeatures between the first portion 210A and the second portion 210B ofthe shell 210. Specifically, portions of the multiport may have a tongue210T and groove 210G construction for alignment or sealing of thedevice.

Any of the multiports 200 disclosed herein may optionally beweatherproof by appropriately sealing seams of the shell 210 using anysuitable means such as gaskets, O-rings, adhesive, sealant, welding,overmolding or the like. To this end, multiport 200 or devices may alsocomprise a sealing element 290 disposed between the first portion 210Aand the second portion 210B of the shell 210. The sealing element 290may cooperate with shell 210 geometry such as respective grooves 210G ortongues 210T in the shell 210. Grooves or tongue may extend about theperimeter of the shell 210. By way of explanation, grooves 210G mayreceive one or more appropriately sized O-rings or gaskets 290A forweatherproofing multiport 200, but an adhesive or other material may beused in the groove 210G. By way of example, the O-rings are suitablysized for creating a seal between the portions of the shell 210. By wayof example, suitable O-rings may be a compression O-ring for maintaininga weatherproof seal. Other embodiments may use an adhesive or suitablewelding of the materials for sealing the device. If welding such asultra-sonic or induction welding of the shell is used a special sealingelement 290 may be used as known in the art. If the multiport 200 isintended for indoor applications, then the weatherproofing may not berequired.

As shown in FIG. 8, multiport 200 comprises a single input optical fiberof the input connection port 260 is routed to a 1:4 splitter 275 andthen each one of the individual optical fibers 250 from the splitter isrouted to each of the respective rear connector 252 of the fourconnection ports 236 for optical connection and communication within themultiport. Input connection port 260 may be configured in any suitableconfiguration for the multiports disclosed as desired for the givenapplication. Examples of input connection ports 260 include beingconfigured as a single-fiber input connection, a multi-fiber inputconnector, a tether input that may be a stubbed cable or terminated witha connector or even one of the connection ports 236 may function as apass-through connection port as desired.

By way of explanation for multi-fiber ports, two or more optical fibers250 may be routed from one or more of the plurality of connection ports236 of the multiport 200 disclosed herein. For instance, two opticalfibers may be routed from each of the four connection ports 236 ofmultiport 200 toward the input connection port 260 with or without asplitter such as single-fiber input connection port 260 using a 1:8splitter or by using an eight-fiber connection at the input connectionport 260 for a 1:1 fiber distribution. To make identification of theconnection ports or input connection port(s) easier for the user, amarking indicia may be used such as text or color-coding of themultiport, color codes on the actuator 310A, or marking the input tether(e.g. an orange or green polymer) or the like.

Other configurations are possible besides an input connection port 260that receives a connector 10. Instead of using a input connection portthat receives a connector 10, multiports 200 may be configured forreceiving an input tether 270 attached to the multiport at the inputconnection port 260 such as represented in FIG. 40A and 40B.

FIGS. 9-12 show modular adapter sub-assembly 310SA used in the multiportof FIGS. 3 and 4. Modular adapter sub-assemblies 310SA enable quick andeasy assembly of multiports 200 in a scalable manner. Moreover, themodular sub-assemblies 230SA advantageously allow the mating components(i.e., the adapters 230A) corresponding to each connection port 236 tomove or “float” independently of other the other modular adaptersub-assemblies 310SA relative to the shell 210 for preserving opticalperformance.

FIGS. 9 and 10 respectively show front and rear perspective views ofmodular adapter sub-assemblies 310SA with a rear connector 252 attachedto the adapter 230A. FIG. 11 depicts an exploded view of the modularadapter sub-assemblies 310SA and shows that the rear connector 252 isnot a portion of modular adapter sub-assembly 310SA, and FIG. 12 is across-sectional view of the modular adapter sub-assembly 310SA. Modularadapter sub-assemblies 310SA comprises an adapter 230A aligned with theat least one connection port 236 when assembled. Adapter 230 may bebiased by a resilient member 230RM. The adapter 230A may be secured tothe adapter body 255 using retainer 240. FIGS. 21-32 show details ofselect components of the modular adapter sub-assembly 310SA.

As best shown in FIG. 11, modular adapter sub-assembly 310SA comprises aportion of securing feature 310 and a securing feature resilient member310RM. Specifically, modular adapter sub-assembly 310SA comprisessecuring member 310M. However, other embodiments could also comprise anactuator 310A as part of the assembly. Securing member 310M is insertedinto a front end of an adapter body 255 along with securing featureresilient member 310RM. Specifically, the rim or upper portion 3 ofsecuring member 310M is inserted into a hoop 255H of adapter body 255and standoffs 310SO are disposed in a portion of the resilient memberpocket 255SP at the bottom of the adapter body 255. Securing featureresilient member 310RM is disposed in the resilient member pocket 255SPfor biasing the securing member 310M to a retain position as shown inFIG. 12. This construction advantageously keeps the assembly intactusing the securing feature resilient member 310RM. Standoffs 310SO ofadapter body 255 may also act as stops to limit the translation of thesecuring member 310.

In this embodiment, modular adapter sub-assembly 310SA may comprises anadapter body 255, securing member 310M, securing feature resilientmember 310RM, a ferrule sleeve 230FS, a ferrule sleeve retainer 230R,resilient member 230RM, a retainer along with the adapter 230A. Adapterbody 255 has a portion of the connection port passageway 233 disposedtherein.

As best depicted in FIGS. 11 and 12, the is resilient member 230RM isdisposed over a barrel of adapter 230A and seated on the flange ofadapter 230A as depicted, then retainer 240 can be attached to adapterbody 255 using latch arms 240LA to secure the same. Ferrule sleeveretainer 230R and ferrule sleeve 230FS are aligned for assembly into theadapter 230A for assembly as shown in FIG. 11 and seated using theferrule sleeve retainer 230R. Of course, other variations of the modularadapter sub-assembly 310SA are possible.

FIGS. 13-16 depict detailed views of the second portion 210B of shell210 with the internal components removed for showing the internalconstruction of the multiport 200 of FIGS. 3 and 4. Shells 210 may haveany suitable shape, design or configuration as desired. Second portion210B cooperates with first portion 210A to form shell 210. Secondportion 210B comprises a plurality of connection ports 236 and inputconnection port 260. Second portion 210B provides a portion of cavity216 of multiport 200, and the internal bottom surface of second portion210B comprises a plurality of alignment features 210AF for aligning themodular adapter sub-assembly 310SA with the respective connection ports236. Alignment features 210AF have a U-shape and cooperate with thealignment features 255AF on the bottom of adapter body 255. Secondportion 210B also includes a plurality of studs 210D on top of therespective connection ports 236 within cavity 216 for seating the hoop255H of the adapter body 255 for assembly. Second portion 210B may alsoinclude a plurality of guide features 210SF for aligning the firstportion 210A with the second portion 210B of the shell 210.

FIG. 15 is a front perspective view of second portion 210B showing otherfeatures. As shown, the keying portion 233KP is an additive keyingportion to the primitive geometric round shape of the connection portpassageway 233 such as a male key that is disposed forward of thesecuring feature in the connection port passageway 233. However, theconcepts for the connection ports 236 of devices may be modified fordifferent connector designs. For instance, the keying portion 233KP maybe defined as a walled-portion across part of the connection portpassageway 233 as represented by the dashed line 233KP′ shown in one ofthe connection ports 236. Thus, the connection port with keying portion233KP′ would be able to properly receive an external fiber opticconnector having a portion with a proper D-shaped portion.

FIG. 15 also depicts alignment protrusions 210AP on the front end 212 ofsecond portion 210B of shell 210. Alignment protrusions 210AP cooperatewith mounting tab 298 for aligning and attaching the same to the shell210 of the multiport 200. In other embodiments, the mounting tab couldbe integrally formed with the shell 210, but that requires a morecomplex molding process.

FIG. 17 depicts the assembly of modular sub-assemblies 310SA into thesecond portion 210B of shell 200. As shown, modular adaptersub-assemblies 310AS are aligned and installed onto the U-shapedalignment features 210AF of the second portion 210B of shell 210 asdiscussed. FIG. 26 shows a representation of the alignment features210AF of the second portion 210B of shell 210 cooperating with thealignment features 255AF on the bottom of adapter body 255 in anotherembodiment. FIG. 17 also shows the hoops 255H of the adapter bodies 255disposed about the plurality of studs 210D on top of the respectiveconnection ports 236 within cavity 216 for aligning the modular adaptersub-assembly 310SA within the second portion 210B of shell 210 foraligning the connection port passageway 233 of the adapter body 255 withthe connection port passageway 233 of the shell 210. FIG. 17 also showsthe support 210S placed into the respective bore of the second portion210B of the shell. As depicted, support 210S is located outside of thesealing interface of the second portion 210B of shell 210.

FIG. 18 depicts an inside surface of the first portion 210A of shell200. As shown, first portion 210A comprises a profile that conforms tothe profile of the second portion 210B of shell 210. By way ofexplanation, first portion 210A comprises a plurality of scallops 210SCfor cooperating with the connection ports 236 on the second portion 210Bof shell 210. First portion 210A also comprise a sealing perimeter thatcooperates with the sealing perimeter of the second portion 210B ofshell 210. First portion 210A also comprises alignment features 210AFsized and shaped for cooperating with the alignment features 255AFT onthe top of adapter body 255 for securing the same when the multiport isassembled. The respective alignment features 210AF,255AF only allowassembly of the modular adapter sub-assemblies 310AS into the shell 210in one orientation for the correct orientation of the locking feature310L with respect to the connection port 236.

Multiport may include a fiber tray or fiber guide/supports that arediscrete components that may attach to the shell 210; however, fiberguides may be integrated with the shell if desired. Shell may also 210comprise one or more fiber guides for organizing and routing opticalfibers 250. The fiber tray inhibits damage to optical fibers and mayalso provide a location for the mounting of other components such assplitters, electronics or the like if desired. Fiber guides may also actas support 210S for providing crush strength to the shell 210 if theyhave a suitable length.

FIGS. 19A-20B show detailed views of sliding actuator 310A. Slidingactuator 310A has a protruding portion 310PP at the top for grabbing andmoving the sliding actuator relative to the shell 210 of the multiport200. Sliding actuator 310A may include a sealing member 310S for keepingdirt, debris and the like out of portions of the multiport 200. Sealingmember 310S is sized for the perimeter about the top surface of thesliding actuator for sealing to the securing feature passageway 245 forsealing. Stop surface 310SS is larger than the opening in the shell 210and retains the sliding actuator 310A within the securing featurepassageway 245 when assembled and inhibits the actuator from beingremoved from the multiport 200 when assembled. Sliding actuator 310A mayalso have tapered leading edges 310LE at the front and rear. Slidingactuator 310A may also have one or more cantilevered arms 310CA withtabs that allow it to snap-fit to the shell 210, but still move in aforward and back direction relative to the shell 210. In thisembodiment, sliding actuator 310A also comprises an engagement surface310AES such as a protrusion 310P that is in communication with the withthe cooperating engagement surface 310ES on securing member 310M. Inother words, the engagement surface 310ES on the securing member 310Maligns with the engagement surface 310AES of the sliding actuator fortranslating the securing member 310M as desired.

FIGS. 19A and 20A show detailed perspective views of the slidingactuator 310A. In this embodiment, the sliding actuator 310A comprises acam or ramp for the engagement surface 310AES. Sliding actuators mayalso be biased if desired so that the sliding actuator 310A is biased toa normally retain position, but this is not necessary. FIG. 20C depictsa resilient member RM that may attach a first end to a portion of thesliding actuator such as notch 310N and the second end is attached tothe shell so the resilient member RM may be pre-loaded with a restoringforce. The resilient member RM would have a suitable restoring force forreturning the sliding actuator 310A to the retain position after beingmoved to the open position.

Actuator 310A may also be a different color or have a marking indiciafor identifying the port type. For instance, the actuator 310A may becolored red for connection ports 236 and the actuator 310A for the inputconnection port 260 may be colored black. Other color or marking indiciaschemes may be used for pass-through ports, multi-fiber ports or portsfor split signals.

FIGS. 21-32 show details of select components of the modular adaptersub-assembly 310SA. FIGS. 21-23 show various perspective detailed viewsof securing member 310M. Securing member 310M comprises a lockingfeature 310L. Locking feature 310L is configured for engaging with asuitable locking portion 20L on the housing 20 of connector 10. In thisembodiment, securing feature 310 comprise a bore 310B that isrespectively aligned with the respective connector port passageway 233as shown in FIG. 8 when assembled. The bore 310B is sized for receivinga portion of connector 10 therethrough as shown in FIG. 39.

As depicted in this embodiment, locking feature 310L is disposed withinbore 310B of securing member 310M. As shown, locking feature 310L isconfigured as ramp 310RP that runs to a short flat portion, then to aledge for creating the retention surface 310RS for engaging andretaining the connector 10 once it is fully-inserted into the connectorport passageway 233 of the connection port 236. Consequently, thesecuring feature 310 is capable of moving to an open position (OP) wheninserting a suitable connector 10 into the connector port passageway 233since the connector housing 20 engages the ramp 310RP pushing thesecuring feature downward during insertion. However, other lockingfeatures may be used with the concepts disclosed herein.

As discussed herein, securing member 310M also comprises engagementsurface 310ES at the upper end for cooperating with the engagementsurface 310AES of the sliding actuator 310A. The engagement surface310ES may be a protrusion or recess on the securing member 310M such asa ramp or slot or the like that engages with a complimentary engagementsurface 310AES on the sliding actuator 310A. For instance, an engagementsurface 310ES such as a ramp of the securing member 310M may ride oncomplimentary engagement surface of the sliding actuator 310A fortranslating the securing member 310M. Securing member 310M may alsocomprises standoffs 310 as best shown in FIG. 23. Standoffs 310cooperate with the resilient member pocket 255SP of the adapter body 255for keeping the bore 310B in the proper rotational orientation withinthe respective to the adapter body 255. Specifically, standoffs 310 havecurved shapes that only allow the securing member 310M to fully-seatinto the adapter body 255 when oriented in the proper orientation.

FIG. 24-27 are various perspective views showing the details of theadapter body 255 of the modular adapter sub-assembly 310SA. Adapter body255 comprises an adapter body bore 255B that comprises a portion of theconnection port passageway 233 when assembled. As discussed, adapterbody 255 comprises alignment features 255AF on the bottom of adapterbody 255 that cooperate with the shell 210 to align and seat the same inthe shell 210. Adapter body 255 also comprises hoop 255H. Hoop 255Hcaptures a portion of the securing member 310M when assembled, and alsoseats the adapter body 255 in the second portion 210B of shell 210during assembly. Adapter body 255 also comprises alignment features255AFT on the top of adapter body 255 for securing the same in the firstportion 210A of the shell 210 when the multiport 200 is assembled.Adapter body 255 also comprise resilient member pocket 255SP at thebottom of the adapter body 255 for capturing the securing featureresilient member 310RM as depicted in FIG. 12.

FIGS. 28 and 29 depict detailed views of adapter 230A. Adapter 230Acomprises a plurality of resilient arms 230RA comprising securingfeatures (not numbered). Adapter 230A also comprises an adapter key 230Kfor orientating the adapter 230A with the adapter body 255. Securingfeatures 230SF cooperate with protrusions on the housing of rearconnector 252 for retaining the rear connector 252 to the adapter 230A.The ferrule 252F is disposed within the ferrule sleeve 230FS whenassembled. FIG. 12 is a sectional view showing the attachment of therear connector 252 with the adapter 230A with ferrule sleeve retainer230R and the ferrule sleeve 230FS therebetween. Ferrule sleeves 230FSare used for precision alignment of mating ferrules between rearconnectors 252 and connector 10. Devices may use alternative rearconnectors if desired and can have different structures for supportingdifferent rear connectors. FIG. 30 depicts details of the ferrule sleeveretainer 230R. FIGS. 31 and 32 show detailed views of retainer 240 thatforms a portion of the modular sub-assembly 310SA. Retainer 240comprises one or more latch arms 240LA for cooperating with the adapterbody 255 for securing the adapter 230A and resilient member 230RM of themodular adapter sub-assembly 310SA.

The concepts disclosed allow relatively small multiports 200 having arelatively high-density of connections along with an organizedarrangement for connectors 10 attached to the multiports 200. Shellshave a given height H, width W and length L that define a volume for themultiport as depicted in FIG. 3. By way of example, shells 210 ofmultiport 200 may define a volume of 800 cubic centimeters or less,other embodiments of shells 210 may define the volume of 400 cubiccentimeters or less, other embodiments of shells 210 may define thevolume of 100 cubic centimeters or less as desired. Some embodiments ofmultiports 200 comprise a connection port insert 230 having a port widthdensity of at least one connection port 236 per 20 millimeters of widthW of the multiport 200. Other port width densities are possible such as15 millimeters of width W of the multiport. Likewise, embodiments ofmultiports 200 may comprise a given density per volume of the shell 210as desired.

The concepts disclosed allow relatively small form-factors formultiports as shown in Table 1. Table 1 below compares representativedimensions, volumes, and normalized volume ratios with respect to theprior art of the shells (i.e., the housings) for multiports having 4, 8and 12 ports as examples of how compact the multiports of the presentapplication are with respect to convention prior art multiports.Specifically, Table 1 compares examples of the conventional prior artmultiports such as depicted in FIG. 1 with multiports having a lineararray of ports. As depicted, the respective volumes of the conventionalprior art multiports of FIG. 1 with the same port count are on the orderof ten times larger than multiports with the same port count asdisclosed herein. By way of example and not limitation, the multiportmay define a volume of 400 cubic centimeters or less for 12-ports, oreven if double the size could define a volume of 800 cubic centimetersor less for 12-ports. Multiports with smaller port counts such as4-ports could be even smaller such as the shell or multiport defining avolume of 200 cubic centimeters or less for 4-ports, or even if doublethe size could define a volume of 200 cubic centimeters or less for4-ports. Devices with sizes that are different will have differentvolumes form the explanatory examples in Table 1 and these othervariations are within the scope of the disclosure. Consequently, it isapparent the size (e.g., volume) of multiports of the presentapplication are much smaller than the conventional prior art multiportsof FIG. 1. In addition to being significantly smaller, the multiports ofthe present application do not have the issues of the conventional priorart multiports depicted in FIG. 2. Of course, the examples of Table 1are for comparison purposes and other sizes and variations of multiportsmay use the concepts disclosed herein as desired.

One of the reasons that the size of the multiports may be reduced insize with the concepts disclosed herein is that the connectors thatcooperate with the multiports have locking features that are integratedinto the housing 20 of the connectors 10. In other words, the lockingfeatures for securing connector are integrally formed in the housing ofthe connector, instead of being a distinct and separate component like acoupling nut of a conventional hardened connector used with conventionalmultiports. Conventional connectors for multiports have threadedconnections that require finger access for connection and disconnecting.By eliminating the threaded coupling nut (which is a separate componentthat must rotate about the connector) the spacing between conventionalconnectors may be reduced. Also eliminating the dedicated coupling nutfrom the conventional connectors also allows the footprint of theconnectors to be smaller, which also aids in reducing the size of themultiports disclosed herein.

TABLE 1 Comparison of Conventional Multiport of FIG. 1 with Multiportsof Present Application Multiport Port Dimension L × Volume NormalizedType Count W × H (mm) (cm³) Volume Ratio Prior Art 4 274 × 66 × 73 13201.0 FIG. 1 8 312 × 76 × 86 2039 1.0 12 381 × 101 × 147 5657 1.0 Linear 476 × 59 × 30 134 0.10 8 123 × 109 × 30 402 0.20 12 159 × 159 × 30 7580.14

Multiport or Devices may have other constructions using the conceptsdisclosed. FIGS. 33-47 depict views of another explanatory device 200configured as a multiport that comprises at least one connection port236 along with securing features 310 associated with the respectiveconnection ports 236 that are similiar to the multiport 200 of FIGS. 3and 4.

FIG. 33 depicts a partially exploded view of another multiport 200 thatis similar to multiport 200 of FIGS. 3 and 4 and has the optical fibers250 removed for clarity, and FIGS. 34-36 are views of the modularadapter sub-assembly 310SA of the multiport 200 of FIG. 33. FIG. 37shows the modular adapter sub-assemblies 310SA of FIG. 35 being loadedinto the second portion 210B of the shell 210.

Like, the multiport 200 of FIGS. 3 and 4, this securing feature 310comprises an actuator 310A and a securing member 310M with the securingmember 310M being a portion of a modular adapter sub-assembly 310SA forease of assembly and isolation of the retaining mechanisms so they canfloat independently. The securing feature member 310M of securingfeature 310 is suitable for retaining connector in connection port 236as discussed herein.

Multiport 200 of FIG. 33 comprise one or more connection ports 236 andthe one or more securing feature passageways 245 as a portion of theshell 210. Multiport 200 of FIG. 33 comprises a shell 210 comprising abody 232 with one or more connection ports 236 disposed on a first endor portion 212 with each connection port 236 comprising a respectiveoptical connector opening 238. The optical connector openings 238 extendfrom an outer surface 234 of shell 210 into a cavity 216 and define aconnection port passageway 233. One or more respective securing featurepasssageways 245 extend from the outer surface 234 of the shell 210 tothe respective connection port passageways 233. A plurality of securityfeatures 310 are associated with the respective plurality of connectionports 236. As depicted, shell 210 is formed by a first portion 210A anda second portion 210B.

FIGS. 34-36 are views of the modular adapter sub-assembly 310SA of themultiport 200 of FIG. 33, that is similar to the modular adaptersub-assembly 310SA used in the multiport 200 of FIGS. 3 and 4. The maindifference in the modular adapter sub-assembly of FIGS. 34-36 are in thedesign of the adapter body 255. In this adapter body 255 the securingfeature resilient member 310RM is not captured in a resilient memberpocket of the adapter body 255. Instead, the second shell 210B comprisesa spring keeper 210SK adjacent to the respective connection port 236best shown in FIG. 37. This may make the assembly of the multiport 200more challenging. Additionally, adapter body 255 of the multiport 200 ofFIG. 33 has different alignment feature 255Af on the bottom of theadapter body 255.

FIG. 37 is a top detailed perspective view of the modular adaptersub-assemblies of FIG. 35 being loaded into the second portion 210B ofthe shell 210 with the optical fibers removed for clarity. As best shownin FIG. 37, the modular sub-assembles 310SA are individually placed intothe second portion 210B of shell 210 after the securing featureresilient member 310RM is placed about the spring keeper 210SK. As shownthe alignment features 210AF of the second portion 210B of shell 210align the modular adapter sub-assembly 310SA with the respectiveconnection ports 236. In this embodiment, the alignment features 210AFare configured as a T-rail for seating the adapter body 255.

FIG. 38 is a detailed perspective view showing how the features of themodular adapter sub-assemblies 310SA of FIG. 35 engage the first portion210A of the shell 210 when assembled. FIG. 38 depicts a partialassembled view of multiport 200 of FIGS. 33 showing the respectiveactuators 310A placed into securing feature passageways 245 within thefirst portion 210A of the shell 210 and the modular sub-assemblies 310SAbeing placed on the first portion 210A of the shell. This view is shownto depict the cooperating geometry between the modular sub-assembles310SA and the first portion 210A of shell 210. Like the other multiport200, first portion 210A of shell 210 also comprises alignment features210AF sized and shaped for cooperating with the alignment features255AFT on the top of adapter body 255 for securing the same when themultiport is assembled. The respective alignment features 210AF,255AFonly allow assembly of the modular adapter sub-assemblies 310AS into theshell 210 in one orientation for the correct orientation of the lockingfeature 310L with respect to the connection port 236. After the internalassembly is completed, the first and second portions 210A,210B of shell210 may assembled in suitable fashion using a sealing element 290 ornot.

FIG. 39 is a detailed sectional view of the multiport 200 of FIG. 33through the connection port for showing the internal construction of themultiport with a fiber optic connector retained using the securingfeature 310. As shown in FIG. 39, the connector mating plane 230MPbetween the ferrule of the rear connector 252 and ferrule of connector10 is disposed within the cavity 216 multiport 200 for protecting theconnector mating interface. Specifically, the respective ferrules arealigned using the ferrule sleeve 230FS. Connector 10 includes a lockingfeature 20L on the housing 20 for cooperating with a securing feature310 of multiport 200. This arrangement is similar for retainingconnectors 10 in the multiport 200 of FIGS. 3 and 4. Connector 10comprises at least one O-ring 65 for sealing with the connector portpassageway 233 at a sealing surface when the connector 10 is fullyinserted into the connection port 236.

FIGS. 40A and 40B depicts the use of an input tether 270 with multiport200. The concepts disclosed may be used with the pass-through cables aswell. Input tether 270 has optical fibers 250 that enter the multiport200 and are terminated with to rear connectors 252 for making an opticalconnection at the connection port 236. In this embodiment, there is nosecuring feature for the input connection port 260. However, otherembodiments may retain the securing feature and secure the input tether270 from inside the device.

If used, input tether 270 may terminate the other end with a fiber opticconnector or be a stubbed cable as desired. For instance, the inputtether connector could be an OptiTip® connector for optical connectionto previously installed distribution cables; however, other suitablesingle-fiber or multi-fiber connectors may be used for terminating theinput tether 270 as desired. Input tether 270 may be secured to themultiport 200 in other suitable manners inside the multiport such asadhesive, a collar or crimp, heat shrink or combinations of the same. Inother embodiments, the input tether could be secured using a securingmember internal to the shell without the actuator as shown. The inputtether to multiport interface could also be weatherproofed in a suitablemanner. The input tether 270 may also have stubbed optical fibers forsplicing in the field if desired, instead of the connector 278.

Furthermore, the input tether 270 may further comprise a furcation bodythat has a portion that fits into the multiport 200 at the input port ofthe shell 210 such as into the optical connector opening 238 of theinput connection port 260, but the furcation body may be disposed withinthe shell 210 if desired as well. The furcation body is a portion of theinput tether that transitions the optical fibers 250 to individualfibers for routing within the cavity 216 of the shell 210 to therespective connector ports. As an example, a ribbon may be used forinsertion into the back end of the ferrule of fiber optic connector 278and then be routed through the input tether 270 to the furcation bodywhere the optical fibers are then separated out into individual opticalfibers 250. From the furcation body the optical fibers 250 may beprotected with a buffer layer or not inside the cavity 216 of themultiport 200 and then terminated on rear connector 252 as desired.

The input tether 270 may be assembled with the rear connectors 252and/or fiber optic connector 278 in a separate operation from theassembly of multiport 200 if the rear connectors 252 fit through theinput port. Thereafter, the rear connectors 252 may be individuallythreaded into the input connection port 260 of the multiport with theappropriate routing of the optical fiber slack and then have the rearconnectors 252 attached to the appropriate structure for opticalcommunication with the connection port passageways 233 of the multiport200. The furcation body may also be secured to the connection portinsert in the manner desired. By way of explanation, the input tethermay be secured to shell 210 using a collar that fits into a cradle. Thisattachment of the input tether using collar and cradle provides improvedpull-out strength and aids in manufacturing; however, otherconstructions are possible for securing the input tether.

FIGS. 41-43 depict various views of a mounting feature insert 200MFIthat may be attached to a portion of the shell 210 for securing thedevice such as with a band or tie-strap. FIG. 41 shows the bottom of thesecond portion 210B of shell 210 comprising one or more pockets 210MFP.As shown, mounting feature insert 200MFI cooperates with a suitablepocket 210MF to snap-fit together with a band for securing the multiportto a pole or the like. FIG. 42 depicts the mounting feature insert200MFI comprising insert openings 200IO disposed on opposite sides of acurved saddle for receiving a band or strap, and FIG. 43 is across-sectional view of the cooperation between mounting feature insert200MFI and the second portion 210B of shell 210.

FIGS. 44-46 depict various views of a mounting feature 298 that may beattached to the front end of the second portion 210B of the shell 210similiar to the other mounting tab 298 disclosed. FIG. 44 depictsalignment protrusions 210AP on the front end 212 of second portion 210Bof shell 210 for securing mounting tab 298. Alignment protrusions areconfigured as T-rails in this embodiment, but other geometry ispossible. Specifically, alignment protrusions 210AP cooperate with aplurality of T-rail slots on mounting tab 298 as shown in FIG. 45 foraligning and attaching the mounting tab to the shell 210 of themultiport 200. Mounting tab 298 may be attached to the shell 210 asshown in FIG. 46, and adhesive or fastener may be used as desired. Othervariations of for the mounting tab are possible.

As shown in FIGS. 47 and 48, multiports 200 may also have one or moredust caps 295 for protecting the connection port 236 or input connectionports 260 from dust, dirt or debris entering the multiport orinterfering with the optical performance. Thus, when the user wishes tomake an optical connection to the multiport, the appropriate dust cap295 is removed from the connector port 236 and then connector 10 ofcable assembly 100 may be inserted into the respective connection port236 for making an optical connection to the multiport 200. Dust caps 295may use similar release and retain features as the connectors 10. By wayof explanation, when securing feature 310 is pushed forward, the dustcap 295 is released and may be removed. Moreover, the interface betweenthe connection ports 236 and the dust cap or connector 10 may be sealedusing appropriate geometry and/or a sealing element such as an O-ring orgasket.

FIG. 49 is a perspective view of a wireless device 500 such as awireless radio for 5G applications having a similar construction to theconcepts disclosed herein and comprising at least one connector port 236associated with securing member 310. Wireless device 500 may have asecuring feature resilient member 310RM for biasing a portion of thesecuring feature 310. Wireless device 500 may comprise one or moreconnection ports 236 disposed on the portion of shell 210 as shown inFIG. 49. Wireless device 500 may have an input port that includes powerand may have electronics 500E (not visible) disposed with in the cavity(not visible) of the device. The wireless device 500 may have any of theother features disclosed herein and they will not be repeated for thesake of brevity.

Still other devices are possible according to the concepts disclosed.FIG. 50 is a perspective view of a closure 700 comprising at least oneconnector port 236 and associated securing member 310. Like wirelessdevice 500, closure 700 may comprise one or more connection ports 236disposed on the portion of shell 210 as shown in FIG. 50. Closure 700may also have a securing feature resilient member 310RM for biasing aportion of the securing feature 310. Closure 700 may have one or moreinput ports or include other components disposed with in the cavity (notvisible) of the device as disclosed herein. The closure 700 may have anyof the other features disclosed herein and they will not be repeated forthe sake of brevity.

Methods for making devices 200, 500 and 700 are also disclosed herein.The methods disclosed may further include installing at least onesecuring feature 310 into a device 200, 500 and 700 so that the at leastone securing feature 310 is associated with connection port 236. Thesecuring member 310M may translate between an open position OP and aretain position RP and translate by moving the sliding actuator 310A asdiscussed herein. Some embodiments may include at least one securingfeature resilient member 310RM is positioned for biasing a portion ofthe at least one securing member 310M to a retain position RP.

The methods may further comprise the securing member 310M comprising abore with a locking feature 310L. The locking feature may furthercomprise a ramp with a ledge.

The methods may further comprise at least one securing feature 310Mtranslating from a retain position RP to an open position OP as asuitable fiber optic connector 10 is inserted into the at least oneconnection port 236.

The method may further comprise securing feature 310 being capable ofmoving to a retain position RP automatically when a suitable fiber opticconnector is fully-inserted into the at least one connector portpassageway 233.

The method may further comprise translating the securing feature 310 formoving the securing feature 310 to the open position OP from anormally-biased closed position CP.

FIGS. 51 and 52 respectively depict perspective and detailed top viewsof another multiport 200 comprising a cover portion 210C for protectingthe sliding actuators 310A of the securing feature 310 according to theconcepts disclosed herein. Cover portion 310C protects the multiportfrom dust, debris and the like an inhibits unintended movement of thesliding actuators 310A. Like the other multiports, this multiport 200comprises a shell, and at least one connection port disposed on themultiport with an optical connection opening extending from an outersurface of the multiport into a cavity of the multiport and defining aconnection port passageway along a longitudinal axis. At least onesecuring member is associated with the connection port passageway, andthe securing member is capable of translating in a direction that istransverse to the longitudinal axis, and the sliding actuator 310A iscapable of moving in a longitudinal direction transverse to thetranslating direction of the securing member.

Additionally, the multiport 200 of FIGS. 51 and 52 uses securingfeatures 310 that are biased to a normally retain position using acommon resilient member 310RM as shown in FIGS. 53-56. As best shown inFIG. 57, the common resilient member 310RM is a continuous piece ofsuitable material such as spring steel or the like with tabs bend overin a hairpin turn for providing a resilient force in an upwarddirection.

Although the disclosure has been illustrated and described herein withreference to explanatory embodiments and specific examples thereof, itwill be readily apparent to those of ordinary skill in the art thatother embodiments and examples can perform similar functions and/orachieve like results. For instance, the connection port insert may beconfigured as individual sleeves that are inserted into a passageway ofa device, thereby allowing the selection of different configurations ofconnector ports for a device to tailor the device to the desiredexternal connector. All such equivalent embodiments and examples arewithin the spirit and scope of the disclosure and are intended to becovered by the appended claims. It will also be apparent to thoseskilled in the art that various modifications and variations can be madeto the concepts disclosed without departing from the spirit and scope ofthe same. Thus, it is intended that the present application cover themodifications and variations provided they come within the scope of theappended claims and their equivalents.

We claim:
 1. A multiport for making an optical connection, comprising: ashell; at least one connection port disposed on the multiport with theat least one connection port comprising an optical connector openingextending from an outer surface of the multiport into a cavity of themultiport and defining a connection port passageway along a longitudinalaxis; at least one securing member being associated with the connectionport passageway, wherein the at least one securing member is capable oftranslating in a direction that is transverse to the longitudinal axis;and at least one sliding actuator capable of moving in a longitudinaldirection transverse to the translating direction of the at least onesecuring member, wherein the at least one sliding actuator engages withthe at least one securing member.
 2. The multiport of claim 2, furthercomprising at least one modular adapter sub-assembly disposed within theshell.
 3. A multiport for making an optical connection, comprising: ashell; at least one connection port disposed on the multiport with theat least one connection port comprising an optical connector openingextending from an outer surface of the multiport into a cavity of themultiport and defining a connection port passageway along a longitudinalaxis; at least one modular adapter sub-assembly disposed within theshell; at least one securing member being associated with the connectionport passageway, wherein the at least one securing member is capable oftranslating in a direction that is transverse to the longitudinal axis;and at least one sliding actuator capable of moving in a longitudinaldirection transverse to the translating direction of the at least onesecuring member, wherein the at least one sliding actuator engages withthe at least one securing member.
 4. The multiport of claim 3, whereinthe at least one sliding actuator engages a ramp of the at least onesecuring feature.
 5. The multiport of claim 3, further comprising atleast one securing feature resilient member for biasing a portion of theat least one securing feature to a retain position.
 6. A multiport formaking an optical connection, comprising: a shell; at least oneconnection port comprising an optical connector opening extending froman outer surface of the multiport into a cavity of the multiport anddefining a connection port passageway along a longitudinal axis; atleast one modular adapter sub-assembly disposed within the shell; atleast one securing member associated with the at least one connectionport passageway, wherein the at least one securing member is capable oftranslating in a direction that is transverse to the longitudinal axisof the at least one connection port, and wherein the at least onesecuring member is part of the modular adapter sub-assembly; and atleast one sliding actuator capable of moving in a longitudinal directiontransverse to the translating direction of the at least one securingmember, wherein the at least one sliding actuator engages with a ramp ofthe at least one securing member.
 7. The multiport of claim 6, whereinthe at least one securing member comprises a bore that is aligned withthe at least one connection port passageway.
 8. A multiport for makingan optical connection, comprising: a shell; at least one connection portcomprising an optical connector opening extending from an outer surfaceof the multiport into a cavity of the multiport and defining aconnection port passageway along a longitudinal axis; at least onemodular adapter sub-assembly disposed within the shell; at least onesecuring member associated with the at least one connection portpassageway, wherein the at least one securing member is capable oftranslating in a direction that is transverse to the longitudinal axisof the at least one connection port, and wherein the at least onesecuring member comprises a bore and an engagement surface configured asa ramp; and at least one sliding actuator capable of moving in alongitudinal direction transverse to the translating direction of the atleast one securing member, wherein the at least one sliding actuatorengages with a ramp of the at least one securing member.
 9. Themultiport of claim 8, wherein the at least one securing membertranslates from a retain position to an open position by turning the atleast one sliding actuator.
 10. The multiport of claim 8, wherein the atleast one securing member is capable of releasing a fiber opticconnector when translating to an open position.
 11. The multiport ofclaim 8, wherein the at least one securing member is capable of movingto a retain position by turning the at least one sliding actuator. 12.The multiport of claim 8, wherein the at least one securing memberfurther comprises a locking feature.
 13. The multiport of claim 12,wherein the locking feature comprises a ramp with a ledge.
 14. Amultiport for an making optical connection, comprising: a shell; atleast one connection port comprising an optical connector openingextending from an outer surface of the multiport into a cavity of themultiport and defining a connection port passageway along a longitudinalaxis; at least one modular adapter sub-assembly disposed within theshell; at least one securing member associated with the at least oneconnection port passageway, wherein the at least one securing member iscapable of translating in a direction that is transverse to thelongitudinal axis of the at least one connection port, and the at leastone securing member comprises a bore; and at least one sliding actuatorcapable of moving in a longitudinal direction transverse to thetranslating direction of the at least one securing member, wherein theat least one sliding actuator engages with the at least one securingfeature, and wherein the at least one securing member translates from aretain position to an open position by moving the at least one slidingactuator in the transverse direction to the translating direction of theat least one securing member.
 15. The multiport of claim 14, wherein thebore is sized for receiving a suitable fiber optic connectortherethrough.
 16. The multiport of claim 14, wherein the bore comprisesa locking feature.
 17. The multiport of claim 16, wherein the lockingfeature comprises a ramp with a ledge.
 18. The multiport of claim 14,further comprising at least one securing feature resilient member forbiasing the at least one securing feature.
 19. The multiport of claim14, wherein the sliding actuator comprises a protruding portion.
 20. Themultiport of claim 19, wherein the sliding actuator is part of themodular adapter sub-assembly.
 21. A multiport for making an opticalconnection, comprising: a shell; at least one connection port comprisingan optical connector opening extending from an outer surface of themultiport into a cavity of the multiport and defining a connection portpassageway along a longitudinal axis; at least one modular adaptersub-assembly disposed within the shell, and the at least one modularadapter sub-assembly comprising at least one securing member associatedwith the at least one connection port passageway and at least onesliding actuator capable of moving in a longitudinal directiontransverse to the translating direction of the at least one securingmember, wherein the at least one securing member is capable oftranslating in a direction that is transverse to the longitudinal axisof the at least one connection port, wherein the securing membercomprises a bore and a locking feature, and wherein the at least onesecuring member translates from a retain position to an open position bymoving the at least one sliding actuator in the transverse direction tothe translating direction of the at least one securing member.
 22. Themultiport of claim 21, wherein the locking feature comprises a ramp witha ledge.
 23. The multiport of claim 22, wherein the locking featurecomprises a retention surface.
 24. A multiport for making an opticalconnection, comprising: a shell; at least one connection port comprisingan optical connector opening extending from an outer surface of themultiport into a cavity of the multiport and defining a connection portpassageway along a longitudinal axis; a securing feature passageway; atleast one securing feature being associated with the at least oneconnection port passageway, and the at least one securing featurecomprising a securing member and a sliding actuator, wherein the slidingactuator is capable of sliding in a longitudinal direction transverse tothe translating direction of the at least one securing member, andwherein the securing member translates from a retain position to an openposition by moving the at least one sliding actuator in the transversedirection to the translating direction of the at least one securingmember; and at least one modular adapter sub-assembly disposed withinthe shell, wherein the securing member is part of the modular adaptersub-assembly.
 25. The multiport of claim 24, wherein the at least oneconnection port is a portion of the shell.
 26. The multiport of claim25, the shell comprises at least a first portion and a second portion.27. The multiport of claim 24, at least one optical fiber routed fromthe at least one connection port toward an input connection port of themultiport.
 28. The multiport of claim 24, the at least one modularadapter sub-assembly comprising an adapter aligned with the at least oneconnection port.
 29. The multiport of claim 28, the adapter biased by aresilient member.
 30. The multiport of claim 28, the at least onemodular adapter sub-assembly comprising an adapter body and a retainer,wherein the adapter is secured to the adapter body using retainer. 31.The multiport of claim 24, the at least one modular adapter sub-assemblycomprising an adapter biased by a resilient member and aligned with theat least one connection port, and the at least one modular adaptersub-assembly further comprising an adapter body and a retainer, whereinthe adapter is secured to the adapter body using retainer.
 32. Themultiport of claim 24, the at least one modular adapter sub-assemblycapable of floating relative to the at least one connection portpassageway.
 33. The multiport of claim 24, the at least one slidingactuator comprising a sealing feature.
 34. The multiport of claim 24,further comprising at least one rear connector comprising a rearconnector ferrule.
 35. The multiport of claim 34, the at least one rearconnector further comprising a resilient member for biasing the rearconnector ferrule.
 36. The multiport of claim 24, further comprising atleast one rear connector having a SC footprint.
 37. The multiport ofclaim 24, wherein the multiport is weatherproof.
 38. The multiport ofclaim 24, further comprising an optical splitter disposed within thecavity.
 39. The multiport of 24, further comprising at least onemounting feature for the multiport.
 40. The multiport of claim 24,further comprising an input connection port configured as a single-fiberinput connection or a multi-fiber input connection.
 41. The multiport ofclaim 24, further comprising an input connection port configured as aninput tether.
 42. The multiport of claim 24, the connection portpassageway comprising a keying portion.
 43. The multiport of claim 42,wherein the keying portion comprises a male key.
 44. The multiport ofclaim 24, further comprising at least one fiber routing guide orsupport.
 45. The multiport of claim 24, wherein the shell defines avolume of 800 cubic centimeters or less.
 46. The multiport of claim 24,wherein the shell defines a volume of 400 cubic centimeters or less. 47.The multiport of claim 24, wherein the shell defines a volume of 100cubic centimeters or less.
 48. The multiport of claim 24, wherein themultiport has a port width density of at least one connection port per20 millimeters of width of multiport
 200. 49. The multiport of claim 24,further comprising a sealing element for weatherproofing the shell. 50.The multiport of claim 24, further comprising a dust cap sized forcooperating with the at least one optical connector opening.
 51. Themultiport of claim 24, wherein the multiport comprises a marking indiciafor the at least one connection port.
 52. The multiport of claim 24,wherein the multiport comprises a marking indicia for the at least oneconnection port.
 53. The multiport of claim 24, wherein the slidingactuator comprises at least one sliding guide.
 54. The multiport ofclaim 24, wherein the at least one securing member translates from aretain position to an open position as a suitable fiber optic connectoris inserted into the at least one connection port.
 55. The multiport ofclaim 24, further comprising a sliding resilient member for biasing thesliding actuator.
 56. A method for making a device comprising an opticalconnection port, comprising the steps of: installing at least onesecuring feature into the device so that the at least one securingfeature is associated with a respective connection port, the at leastone securing feature comprising a securing member and a slidingactuator, wherein a portion of the securing member may translate betweenan open position and a retain position in a direction transverse to alongitudinal axis of the connection port and the sliding actuator iscapable of moving in a longitudinal direction transverse to thetranslating direction of the at least one securing member, and at leastone securing feature resilient member is positioned for biasing aportion of the at least one securing feature to a retain position. 57.The method of claim 56, wherein the at least one securing member furthercomprises a locking feature.
 58. The method of claim 57, wherein thelocking feature further comprising a ramp with a ledge.
 59. The methodof claim 56, further comprising the at least one securing membertranslating from a retain position to an open position as a suitablefiber optic connector is inserted into the at least one connection port.60. The method of claim 56, the sliding actuator engaging a rampdisposed on the securing member for translating the securing memberbetween the open position and the retain position.
 61. The method ofclaim 56, wherein the securing feature is a portion of at least onemodular adapter sub-assembly.
 62. A wireless device, comprising: ashell; at least one connection port on the wireless device, the at leastone connection port comprising an optical connector opening extendingfrom an outer surface of the wireless device into a cavity of thewireless device and defining a connection port passageway along alongitudinal axis; at least one securing feature being associated withthe connection port passageway, wherein the at least one securingfeature comprises a securing member and a sliding actuator, and thesecuring member is capable of translating in a direction that istransverse to the longitudinal axis of the connection port passagewayand the sliding actuator is capable of moving in a longitudinaldirection transverse to the translating direction of the at least onesecuring member; and at least one securing feature resilient member forbiasing a portion of the at least one securing feature.
 63. The wirelessdevice of claim 62, further comprising at least one modular adaptersub-assembly disposed within the shell.